Computational experiment analysis of prevention and control strategies for major public health emergencies
Inspired by the idea of invasive species management,a computational experiment analysis model of prevention and control strategies for major public health emergencies is pro-posed in this paper.This model deeply characterizes the multiple heterogeneity in the process of virus transmission.It envisions the scenarios for the current and future evolution of major public health emergencies,analyzes the impact of different non-pharmaceutical interventions on epidemic development,provides the optimal spatiotemporal nodes for upgrading prevention and control measures,and offers strategy for minimizing the total number of infections.Meanwhile,several common epidemic prevention and control strategies have been organically unified and characterized by through the design of virus testing constraints.The computational experi-mental results indicate that in the early stages of emergency response to major public health emergencies,adopting dynamic reset strategies has its unique value,and is significantly superior to other strategies in terms of the number of infected individuals,severity rate,and critical illness rate.Our study also finds that there is a significant marginal decreasing effect in virus testing efficiency and contact coefficient.Furthermore,the combination of strong and soft social distance policies would have a better effect.
major public health emergenciesprevention and control strategiescomputational experimentinvasive species managementresource allocation